As factories and fulfillment centers demand faster throughput and greater adaptability, the mechanisms that physically interact with parts have become strategic assets for automation teams. Mechanical grippers are the interface between robot and workpiece, delivering the precision, repeatability and reliability that modern manufacturing and warehousing operations require to meet tight tolerances and high cycle counts. Understanding gripper design and performance is central t

A 3-finger gripper uses three contact points to achieve stable, compliant grasps, offering greater adaptability than two-jaw or parallel grippers when handling irregular or asymmetrical parts. Recent advances — from AI-assisted control to flexible automation architectures — have accelerated the adoption of multi-finger solutions by improving dexterity and simplifying integration into existing workflows. How do mechanical design and operating principles to set the foundation

Electric parallel grippers have become a cornerstone of modern automation and robotics, delivering the precise, repeatable handling that high-mix manufacturers and busy warehouses require. Compared with pneumatic or hydraulic alternatives, they offer tighter position control, smoother force regulation and greater adaptability to diverse payloads, which enables safer collaboration with people and more reliable handling of delicate parts. For Blue Sky Robotics’ audience in manu

In the age of smart manufacturing, automated palletizing has become a key application for robots across industries. Whether you're handling boxes, bags, or irregular loads, the efficiency and consistency of a robotic system depend heavily on one crucial component: the end effector. Also known as robotic EOAT (End of Arm Tooling), the end effector is the tool that actually interacts with the product—gripping, lifting, placing, or manipulating it. Choosing the right tool among

That’s why the latest robotic EOAT (end of arm tooling) solutions are drawing inspiration from biology—and making waves in industrial settings. Here are three standout innovations in soft robot end effector technology that highlight how modern end effector styles are evolving to meet real-world demands.

As the agricultural and food packaging industries face rising labor costs and a push toward automation, a new class of robotic end of arm tooling is emerging: soft robotic end effectors. Designed to mimic the dexterity and gentleness of the human hand, these flexible tools are revolutionizing how robots interact with fragile produce like berries, mushrooms, and tomatoes. Traditional EOAT styles often fail in such applications—too rigid, too forceful, or too narrowly optimize

Investing in automation means making informed decisions—especially when it comes to robotic end of arm tooling. Also known as robotic...

In modern automation, selecting the right robot end effector can make or break the performance of your robotic system. Often referred to as robotic EOAT (End of Arm Tooling), end effectors are the tools attached to the end of a robot arm that interact with the environment to perform tasks like gripping, welding, cutting, or moving parts. But not all end effector types are created equal. Below, we break down common end effector types, their best applications, and real-world us